IndisputableMonolith.Flight.SolidState.VirtualRotor
The VirtualRotor module defines a coil in the phased array for solid-state flight models. It integrates φ-tetrahedral geometry and 8-tick scheduling primitives to structure rotor definitions. Researchers modeling entropic energy generation in Metric Engines would cite it when building vacuum-pump implementations. The module contains only definitions and reuses imported lemmas for its structure.
claimVirtualRotor as a phased-array coil with log-spiral paths under φ-scaling and 8-tick control windows.
background
The module sits in the Flight domain and imports two upstream modules. Flight.Geometry supplies the purely geometric layer: the φ-tetrahedral angle derived from Recognition Science axioms together with log-spiral rotor paths under φ-scaling; no physical claims appear. Flight.Schedule supplies a minimal control surface that reuses the existing 8-window neutrality predicates. The local setting therefore combines φ-derived geometry with discrete 8-tick discipline to define solid-state rotor objects.
proof idea
This is a definition module, no proofs. It declares the VirtualRotor type and related objects by direct reference to the imported geometric and scheduling primitives.
why it matters in Recognition Science
The module supplies the solid-state rotor layer that feeds IndisputableMonolith.Energy.VacuumPump. That downstream module formalizes the thermodynamics of a Metric Engine acting as a generator, where ordering the vacuum produces heat absorption and entropy decrease. VirtualRotor therefore closes the geometric-to-thermodynamic link inside the RS flight model.
scope and limits
- Does not derive physical propulsion predictions or forces.
- Does not implement numerical control algorithms or simulations.
- Does not contain mass formulas or constant derivations.
- Does not address relativistic corrections beyond imported geometry.